Introduction to parallel algorithms and architectures: array, trees, hypercubes
Introduction to parallel algorithms and architectures: array, trees, hypercubes
Parallel computation: models and methods
Parallel computation: models and methods
Fault Diameter of k-ary n-cube Networks
IEEE Transactions on Parallel and Distributed Systems
Lee Distance and Topological Properties of k-ary n-cubes
IEEE Transactions on Computers
Hamiltonian-like Properties of k-Ary n-Cubes
PDCAT '05 Proceedings of the Sixth International Conference on Parallel and Distributed Computing Applications and Technologies
Weak-vertex-pancyclicity of (n, k)-star graphs
Theoretical Computer Science
Path embeddings in faulty 3-ary n-cubes
Information Sciences: an International Journal
Embedding paths and cycles in 3-ary n-cubes with faulty nodes and links
Information Sciences: an International Journal
Parallel construction of optimal independent spanning trees on Cartesian product of complete graphs
Information Processing Letters
Panconnectivity and edge-pancyclicity of k-ary n-cubes with faulty elements
Discrete Applied Mathematics
Edge-bipancyclicity of the k-ary n-cubes with faulty nodes and edges
Information Sciences: an International Journal
Panconnectivity of Cartesian product graphs
The Journal of Supercomputing
Hamiltonian cycles passing through linear forests in k-ary n-cubes
Discrete Applied Mathematics
One-to-one disjoint path covers on k-ary n-cubes
Theoretical Computer Science
Routing and wavelength assignment for 3-ary n-cube in array-based optical network
Information Processing Letters
Panconnectivity of n-dimensional torus networks with faulty vertices and edges
Discrete Applied Mathematics
(n-3)-edge-fault-tolerant weak-pancyclicity of (n,k)-star graphs
Theoretical Computer Science
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We study two topological properties of the 3-ary n-cube Q n 3 . Given two arbitrary distinct nodes x and y in Q n 3 , we prove that there exists an x---y path of every length ranging from d(x,y) to 3 n 驴1, where d(x,y) is the length of a shortest path between x and y. Based on this result, we prove that Q n 3 is edge-pancyclic by showing that every edge in Q n 3 lies on a cycle of every length ranging from 3 to 3 n .